Modeling of Micro-Electronic Fluidic Systems

Oana Tatiana Nedelcu; Robert W. Barber; Hans G. Kerkhoff; David R. Emerson; Raluca Muller; E.J. van der Wouden

Modeling of Micro-Electronic Fluidic Systems

Oana Tatiana Nedelcu, Robert W. Barber, Hans G. Kerkhoff, David R. Emerson, Raluca Muller, E.J. van der Wouden

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Abstract

A microelectronic fluidic system is studied using modeling and simulation of fluid flow controlled by applying gate voltage. 2D simulations were used to characterize the fluidic Field Effect Transistor (FlowFET) device under fault-free conditions. The FlowFET operates by applying a voltage from a gate electrode in the insulated side wall of a microchannel, to modulate the z-potential at the shear plane. The change in z-potential can be used to control both the magnitude and the direction of the electroosmotic flow in the microchannel.

Original language	Undefined
Pages (from-to)	363-369
Number of pages	7
Journal	Romanian journal of information science and technology
Volume	8
Issue number	4
Publication status	Published - 2005

Keywords

METIS-226953
EWI-20046
EC Grant Agreement nr.: FP6/507255
IR-76674

Access to Document

http://www.imt.ro/romjist/Volum8/Number8_4/cuprins8_4.htm

Cite this

@article{9936401d75ea46e694630e51d512523f,

title = "Modeling of Micro-Electronic Fluidic Systems",

abstract = "A microelectronic fluidic system is studied using modeling and simulation of fluid flow controlled by applying gate voltage. 2D simulations were used to characterize the fluidic Field Effect Transistor (FlowFET) device under fault-free conditions. The FlowFET operates by applying a voltage from a gate electrode in the insulated side wall of a microchannel, to modulate the z-potential at the shear plane. The change in z-potential can be used to control both the magnitude and the direction of the electroosmotic flow in the microchannel.",

keywords = "METIS-226953, EWI-20046, EC Grant Agreement nr.: FP6/507255, IR-76674",

author = "Nedelcu, {Oana Tatiana} and Barber, {Robert W.} and Kerkhoff, {Hans G.} and Emerson, {David R.} and Raluca Muller and {van der Wouden}, E.J.",

note = "This work was partially supported by FP6 NoE {\^a}€{\oe}PATENT{\^a}€� 507255 -Work package WP2 -{\^a}€{\oe}Fault Modeling of FlowFETs{\^a}€� Project (2004{\^a}€“2005)",

year = "2005",

language = "Undefined",

volume = "8",

pages = "363--369",

journal = "Romanian journal of information science and technology",

issn = "1453-8245",

publisher = "Publishing House of the Romanian Academy",

number = "4",

}

TY - JOUR

T1 - Modeling of Micro-Electronic Fluidic Systems

AU - Nedelcu, Oana Tatiana

AU - Barber, Robert W.

AU - Kerkhoff, Hans G.

AU - Emerson, David R.

AU - Muller, Raluca

AU - van der Wouden, E.J.

N1 - This work was partially supported by FP6 NoE â€œPATENTâ€� 507255 -Work package WP2 -â€œFault Modeling of FlowFETsâ€� Project (2004â€“2005)

PY - 2005

Y1 - 2005

N2 - A microelectronic fluidic system is studied using modeling and simulation of fluid flow controlled by applying gate voltage. 2D simulations were used to characterize the fluidic Field Effect Transistor (FlowFET) device under fault-free conditions. The FlowFET operates by applying a voltage from a gate electrode in the insulated side wall of a microchannel, to modulate the z-potential at the shear plane. The change in z-potential can be used to control both the magnitude and the direction of the electroosmotic flow in the microchannel.

AB - A microelectronic fluidic system is studied using modeling and simulation of fluid flow controlled by applying gate voltage. 2D simulations were used to characterize the fluidic Field Effect Transistor (FlowFET) device under fault-free conditions. The FlowFET operates by applying a voltage from a gate electrode in the insulated side wall of a microchannel, to modulate the z-potential at the shear plane. The change in z-potential can be used to control both the magnitude and the direction of the electroosmotic flow in the microchannel.

KW - METIS-226953

KW - EWI-20046

KW - EC Grant Agreement nr.: FP6/507255

KW - IR-76674

M3 - Article

SN - 1453-8245

VL - 8

SP - 363

EP - 369

JO - Romanian journal of information science and technology

JF - Romanian journal of information science and technology

IS - 4

ER -